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Exploring the atom and the nano-scale: A look at the first-cycle physics program at Uniwersytet Jana Długosza + test

Physics

The first-cycle program in Physics at Uniwersytet Jana Długosza offers students a path into specialized scientific fields. This full-time, three-year course aims to provide a comprehensive understanding of physics, built on a strong foundation of mathematics and natural sciences. Beyond general academics, the curriculum is designed to develop practical skills in using modern diagnostic systems and processing complex information. Students choose their specialization at the outset, focusing their studies on either the critical field of nuclear safety or the rapidly advancing world of nanotechnology.

Table of contents

What the bachelor's program in physics entails

The core objective of the undergraduate studies is to equip students with general knowledge in the field of physics. This is supported by solid foundations in mathematical and natural sciences. The program emphasizes the ability to understand and accurately describe physical phenomena.

Developing practical and linguistic skills

A significant part of the curriculum involves learning to use modern measuring equipment and technical diagnostic systems. Students are trained in gathering, processing, and transmitting information within the natural sciences, particularly in physics and technology. Additionally, the program places special emphasis on language proficiency.

Language proficiency and international opportunities

Graduates are expected to achieve a B2 level in a foreign language according to the Common European Framework of Reference for Languages. This includes the ability to use specialized technical foreign language relevant to physics. Students also have opportunities to receive scholarships to study abroad under the Erasmus+ program.

Choosing a specialization: Nuclear safety and radiological protection

Students select their specialization during recruitment. The Nuclear Safety and Radiological Protection track prepares individuals for roles in private and public sectors related to supervising compliance with radiological protection requirements. This involves activities related to the use, production, and handling of radioactive sources and devices generating ionizing radiation.

How the nuclear safety specialization is structured

The first two semesters cover general education in the exact sciences. Specialized subjects begin in the third semester. The curriculum delivers both theoretical and practical knowledge necessary for work as a radiological protection inspector. A strong emphasis is placed on the practical aspects of the discussed issues, allowing students to gain required experience in radiation exposure.

A direct path to professional certification

Completion of this specialization exempts graduates from the need for additional training. It allows them to take the state examination for Radiological Protection Inspector, after prior approval by the President of the State Atomic Energy Agency.

Career prospects in the nuclear and industrial sectors

Graduates of this specialization are prepared for work in various facilities. These include:

  • Government agencies responsible for nuclear supervision.

  • The metallurgical and mining industries.

  • Research units using ionizing radiation.

  • Institutions dealing with dose control and calibration of dosimetric devices.

  • Institutions that test the tightness of radioactive sources.

  • Companies providing services in shielding projects for various laboratories.

  • Companies supervising compliance with radiological protection principles.

  • Future nuclear facilities, in personnel roles responsible for radiological supervision.

The second option: Focusing on nanotechnology

The Nanotechnology specialization is designed to meet the interests of young people wishing to pursue an attractive career in the European market. The aim is to educate graduates in physics with professional knowledge in solid-state physics and modern materials on a nanometric scale.

What students learn in nanotechnology

The curriculum focuses on materials with industrial applications, exploring their structural, electronic, optical, and magnetic properties. Specialization classes, which also begin in the third semester, cover topics such as the physical foundations of nanotechnology, nanostructure technology, and computational nanotechnology.

From theory to laboratory practice

In addition to lectures and seminars, students participate in laboratory classes. These sessions allow them to familiarize themselves with methods of nanostructure fabrication and various structural research techniques.

Skills for the high-tech industry

A graduate of the nanotechnology track develops skills in analyzing research problems related to nanomaterials and using modern research methods of solid-state physics. They also learn theoretical modeling of composite material structures and gain experience working in a team of specialists in research laboratories.

Where nanotechnology graduates can work

This specialization opens doors to employment domestically and abroad in various settings:

  • Specialized industrial and research laboratories.

  • Emerging companies implementing innovative technologies.

  • Science and technology parks.

  • Advanced technology centers.

Summary

The three-year (six-semester) full-time Physics program at Uniwersytet Jana Długosza culminates in a Bachelor of Physics professional title. Graduates are prepared to continue their education in the second cycle in the field of Physics. They may also find employment in research and scientific institutions or in industries that require knowledge in the exact sciences.

Aptitude Test

Answer all the questions and check if Physics is the right field of study for you!

1. How do you approach complex problems, like a math puzzle or a logical riddle?

2. When you observe a natural phenomenon (like a rainbow or lightning), what is your typical reaction?

3. What is your relationship with mathematics, particularly algebra and calculus?

4. How interested are you in understanding how modern technology (e.g., smartphones, GPS, medical scanners) works?

5. When learning a new scientific concept, what is your preferred method?

6. How do you feel about the idea of conducting laboratory experiments?

7. Your level of comfort with abstract concepts (e.g., fields, quantum states, relativity) is:

8. When you encounter a challenging problem that you can't solve immediately, what do you do?

9. How appealing is the idea of using mathematical models to predict the behavior of a physical system?

10. What aspect of physics motivates you the most?


published: 2025-10-23
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